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DTSTAMP:20250604T030849Z
UID:3B5E5007-0556-4DF0-BB1C-558D2611B06A
DTSTART;TZID=America/Los_Angeles:20250603T190000
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DESCRIPTION:Generative Adversarial Networks (GANs) implement Machine Learni
 ng (ML) algorithms that can address competitive resource allocation proble
 ms together with detection and mitigation of anomalous behavior. In this t
 alk\, we discuss their use in next-generation (NextG) communications withi
 n the context of cognitive networks to address i) spectrum sharing\, ii) d
 etecting anomalies\, and iii) mitigating security attacks. GANs have the f
 ollowing advantages. First\, they can learn and synthesize field data\, wh
 ich can be costly\, time consuming\, and non-repeatable. Second\, they ena
 ble pre-training classifiers by using semi-supervised data. Third\, they f
 acilitate increased resolution. Fourth\, they enable recovering corrupted 
 bits in the spectrum. The talk will provide basics of GANs\, a comparative
  discussion on different kinds of GANs\, performance measures for GANs in 
 computer vision and image processing as well as wireless applications\, se
 veral datasets for wireless applications\, performance measures for genera
 l classifiers\, a survey of the literature on GANs for i)–iii) above\, s
 ome simulation results\, and future research directions. In the spectrum s
 haring problem\, connections to cognitive wireless networks are establishe
 d. Simulation results show that a particular GAN implementation is better 
 than a convolutional auto encoder for an outlier detection problem in spec
 trum sensing.\n\nSpeaker(s): Ender Ayanoglu\, \n\nVirtual: https://events.
 vtools.ieee.org/m/466461
LOCATION:Virtual: https://events.vtools.ieee.org/m/466461
ORGANIZER:isayan@ieee.org
SEQUENCE:8
SUMMARY:Machine Learning in NextG Networks via Generative Adversarial Netwo
 rks
URL;VALUE=URI:https://events.vtools.ieee.org/m/466461
X-ALT-DESC:Description: &lt;br /&gt;&lt;p class=&quot;MsoNormal&quot;&gt;Generative Adversarial N
 etworks (GANs) implement Machine Learning (ML) algorithms that can address
  competitive resource allocation problems together with detection and miti
 gation of anomalous behavior. In this talk\, we discuss their use in next-
 generation (NextG) communications within the context of cognitive networks
  to address i) spectrum sharing\, ii) detecting anomalies\, and iii) mitig
 ating security attacks. GANs have the following advantages. First\, they c
 an learn and synthesize field data\, which can be costly\, time consuming\
 , and non-repeatable. Second\, they enable pre-training classifiers by usi
 ng semi-supervised data. Third\, they facilitate increased resolution. Fou
 rth\, they enable recovering corrupted bits in the spectrum. The talk will
  provide basics of GANs\, a comparative discussion on different kinds of G
 ANs\, performance measures for GANs in computer vision and image processin
 g as well as wireless applications\, several datasets for wireless applica
 tions\, performance measures for general classifiers\, a survey of the lit
 erature on GANs for i)&amp;ndash\;iii) above\, some simulation results\, and f
 uture research directions. In the spectrum sharing problem\, connections t
 o cognitive wireless networks are established. Simulation results show tha
 t a particular GAN implementation is better than a convolutional auto enco
 der for an outlier detection problem in spectrum sensing.&lt;/p&gt;\n&lt;p class=&quot;M
 soNormal&quot;&gt;&amp;nbsp\;&lt;/p&gt;
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